Probe or probe set for evaluating influence of ultraviolet ray on skin and nucleic acid microarray

ABSTRACT

Provided are a probe or a probe set which can evaluate what the skin condition or a skin cell is, and what kind of influence an external stimulation (particularly ultraviolet ray) to the skin or a skin cell has on the skin condition, such as elasticity and wrinkles, and a nucleic acid microarray which is loaded with the probe or the probe set. The invention is an invention related to a probe or a probe set for evaluating the influence of ultraviolet ray on the skin, which comprises nucleic acids of (a), (b) or (c) described below. (a) Nucleic acids comprising a base sequence constituting at least one kind of gene selected from the group consisting of GBA, GLB1, CAT, OLFM1, ASAH1, MMP14, MMP17 and COL18A1; (b) Nucleic acids comprising a base sequence complementary to the nucleic acids of aforesaid (a); (c) Nucleic acids which hybridize with nucleic acids comprising a base sequence complementary to the nucleic acids of aforesaid (a) or (b) under stringent conditions, and can detect a skin constitution-related gene.

TECHNICAL FIELD

The present invention relates to a probe or a probe set which can evaluate the skin condition such as wrinkle or elasticity, specifically the influence of ultraviolet ray on the skin, and a nucleic acid microarray, and a method of evaluating the influence of ultraviolet ray on the skin using the same, and the like.

BACKGROUND ART

The skin is the greatest and most visible organ of the body of animals including human, and mainly consists of the epithelium and the dermis, and has several accessory structures such as sweat glands, sebaceous glands and hair follicles.

In addition, the skin is an organ that is most frequently exposed to environmental stresses, hazards and pathogens among the tissues of the body. Therefore, the skin has many functions, for example, a protection-barrier functions to external invasions (for example, heat, chemical agents and bacteria), a heat-regulation function, a dehydration-prevention function, and further a sensory function. Accordingly, maintenance and establishment of the skin health is important for the health of the animal.

As one of the methods of evaluating the skin condition or evaluating ingredients improving the skin condition, a method is known so far in which the aging state or inflammation state of the skin is evaluated by measuring the gene expression level (Patent Documents 1 and 2). Particularly with respect to the wrinkle and the aging state, known is a method of evaluating certain proteins and expression of genes and the like on the skin irradiated with ultraviolet ray, and, (Patent Documents 3 and 4).

CITATION LIST Patent Document

-   Patent Document 1: JP 2010-115131 A -   Patent Document 2: JP 2010-172240 A -   Patent Document 3: JP 2011-178747 A -   Patent Document 4: JP 2005-520483 W

DISCLOSURE OF THE INVENTION Problem to be Solved by the Invention

However, these evaluation methods can measure only single symptom or state, respectively, and particularly are not a method that can objectively evaluate the influence of ultraviolet ray on the skin at the gene expression level.

Accordingly, a main object of the invention is to provide a probe or a probe set and a nucleic acid microarray which is loaded with the probe or the probe set, which can evaluate what the skin condition or a skin cell condition is, and what kind of influence of an external stimulation (particularly ultraviolet ray) to the skin condition, such as elasticity and wrinkles,

Means for Solving Problem

The inventors conducted thorough investigations so as to solve such problems described above, and as a result, the inventors found that the object described above can be achieved by selecting certain genes focusing on genes related to the constitution of the skin and using nucleic acids constituting the gene (or a portion thereof) as a probe, thus completing the invention.

Specifically, the present invention is as described below.

(1) A probe or a probe set for evaluating the influence of ultraviolet ray on the skin, which comprises nucleic acids of (a), (b) or (c) described below or a portion thereof.

(a) Nucleic acids comprising a base sequence constituting at least one kind of gene selected from the group consisting of GBA, GLB1, CAT, OLFM1, ASAH1, MMP14, MMP17 and COL18A1

(b) Nucleic acids comprising a base sequence complementary to the nucleic acids of aforesaid (a)

(c) Nucleic acids which hybridize with nucleic acids comprising a base sequence complementary to the nucleic acids of aforesaid (a) or (b) under stringent conditions, and can detect a skin constitution-related gene

Examples of the nucleic acids of (a) in the probe set of (1) described above include those composed of the nucleic acids of (i) and (ii) described below.

(i) Nucleic acids comprising a base sequence constituting at least one kind of gene selected from the group consisting of GBA, GLB1, CAT, OLFM1 and ASAH1

(ii) Nucleic acids comprising a base sequence constituting at least one kind of gene selected from the group consisting of MMP14, MMP17 and COL18A1

In addition, similarly, examples of the nucleic acids of (a) include nucleic acids comprising a base sequence constituting each gene of GBA, GLB1, CAT, OLFM1 and ASAH1; nucleic acids comprising a base sequence constituting each gene of MMP14, MMP17 and COL18A1; and nucleic acids comprising a base sequence constituting each gene of MMP14, MMP17, COL18A1, GBA, GLB1, CAT, OLFM1 and ASAH1.

(2) A probe or a probe set for evaluating the influence of ultraviolet ray on the skin, which comprises nucleic acids of (α), (β) or (γ) described below.

(α) Nucleic acids comprising at least one kind of base sequence among base sequences shown in SEQ ID NOS: 27, 30, 58, 63, 70, 84, 85 and 112

(β) Nucleic acids comprising a base sequence complementary to the nucleic acids of aforesaid (α)

(γ) Nucleic acids comprising a base sequence having a homology of 70% or higher with respect to the base sequence of the nucleic acids of aforesaid (α) or (β), and can detect a skin constitution-related gene

(δ) Nucleic acids comprising a base sequence of which one to several bases are added, deleted or substituted in the base sequence of the nucleic acids of aforesaid (α), (β) or (γ), and can detect a skin constitution-related gene

Examples of the nucleic acids of (α) in the probe set of (2) described above include nucleic acids comprising base sequences shown in SEQ ID NOS: 27, 30, 58, 63, 70, 84, 85 and 112.

(3) A probe set for evaluating the influence of ultraviolet ray on the skin, which comprises nucleic acids of (i) and/or (ii) described below.

(i) Nucleic acids comprising base sequences shown in SEQ ID NOS: 1 to 130

(ii) Nucleic acids comprising base sequences shown in SEQ ID NOS: 131 to 257

(4) A nucleic acid microarray for evaluating the influence of ultraviolet ray on the skin, which comprises the probe or the probe set of any one of (1) to (3) described above.

(5) A method of evaluating the influence of ultraviolet ray on the skin, which comprises a process of irradiating a target object with ultraviolet ray, and then measuring the gene-expression amount using the probe or the probe set of any one of (1) to (3) described above.

(6) A method of evaluating the influence of ultraviolet ray on the skin, which comprises a process of irradiating a target object with ultraviolet ray, and then measuring the gene-expression amount using the nucleic acid microarray of (4) described above.

(7) A method of screening a compound that is useful in a skin disease remedy or a cosmetic using the probe or the probe set of any one of (1) to (3) described above.

(8) A method of screening a compound that is useful in a skin disease remedy or a cosmetic using the nucleic acid microarray of (4) described above.

Effect of the Invention

According to the invention, it is possible to provide a probe or a probe set which can objectively evaluate the influence of external stimulation, particularly ultraviolet ray on the skin at the gene expression level, and a nucleic acid microarray which is loaded with the probe or the probe set.

In addition, according to the invention, it is possible to provide a method of evaluating the influence of ultraviolet ray on the skin of a test subject, and a method of effectively screening a substance (compound and the like) that is useful as an active ingredient of a skin disease remedy (percutaneous absorption-type formulation and the like) or a cosmetic using the probe or the probe set and the nucleic acid microarray.

BRIEF DESCRIPTION OF DRAWINGS

FIG. 1 is a schematic diagram illustrating a sequence fixing apparatus for manufacturing a hollow fiber bundle (hollow fiber array).

FIG. 2 (FIGS. 2A to 2H) is a diagram illustrating the change of the gene-expression amount associated with irradiation of UVB (ultraviolet ray B wave) on a keratinocyte. The vertical axis in all of the graphs in FIG. 2 represents the fluorescence intensity (Intensity), and the horizontal axis represents the time (h), and ♦ (UV−) represents the case of the absence of UVB irradiation, and ▪ (UV+) represents the case of the presence of UVB irradiation.

MODE(S) FOR CARRYING OUT THE INVENTION

Hereinafter, the invention will be explained in detail. The scope of the invention is not limited to the explanation, and may be implemented with suitable change even beyond the examples described below within a scope where the intention of the invention is not impaired. Further, the specification of Japanese patent application No. 2012-105085 (filed on May 2, 2012), on which the claiming for the priority of the present application is based, are incorporated herein in its entirety. In addition, all of the publications, for example, the prior art documents, and the open publications, the patent publications and the other patent documents cited in the present specification are incorporated herein by reference.

1. Summary of the Invention

The evaluation of the influence of external stimulation, particularly ultraviolet ray on the skin in the invention refers to judgment and evaluation of the skin state such as skin elasticity and wrinkle with presence or absence of the gene expression or the change of the expression amount. Herein, the gene expression is expression of mRNA.

In order to evaluate the skin condition such as skin elasticity and wrinkle in the invention, a gene encoding ceramide, collagen, selectin, elastin or the like, a gene encoding a synthetic enzyme thereof, a gene encoding a catabolic enzyme thereof or a gene associated with inflammation is selected, and can be used as a probe. These genes are referred to as the skin constitution-related gene in the specification and the like. Particularly, in the case where the influence of ultraviolet ray (UV) on the skin state such as wrinkle, aging and skin elasticity is evaluated, at least one kind of gene selected from the group consisting of GBA, GLB1, CAT, OLFM1, ASAH1, MMP14, MMP17 and COL18A1 is selected among the skin constitution-related genes described in detail later, and nucleic acids comprising a base sequence constituting the gene, and the like can be used as a probe.

Herein, examples of the skin constitution-related gene include those described below.

<Skin Constitution-Related Gene>

CKB, CKM, EDN1, EDN2, EDN3, GDNF, NPPB, SELE, SELL, SELP, TNNT2, HAPLN1, HAS1, HAS2, HAS3, FN1, LAMA1, MMP1, MMP2, MMP3, MMP7, MMP9, MMP10, MMP11, MMP12, MMP13, MMP14, MMP15, MMP16, MMP17, MMP24, MMP25, TIMP1, TIMP2, TIMP3, TIMP4, MME, F2RL1, ACO1, ACO2, NFATC1, SUMO1, SUMO2, SUMO3, ADM, PTGES, PTGIS, ANG, TEK, TIE1, ICAM1, VCAM1, KDR, COL1A1, COL1A2, COL4A1, COL10A1, COL18A1, POMC, SOD1, SOD2, SOD3, CAT, GPX, GSR, TTPA, ELN, EMILIN1, EMILIN2, GLB1, MMRN2, ELANE, MFAP5, ATP7A, IL1A, IL1B, GM-CSF, PTGS2, TNFA, IL6, IL8, ACER1, ACER2, ASAH1, GBA, SGMS1, CEL, GALC, SPTLC1, LASS1, LASS6, DEGS1, FLG, FLG2, KRT1, KRT2, KRT3, KRT4, FGF7, CHST1, CHST2, CSTA, KLF1, EGF, HBEGF, AREG, SIRT1, SIRT2, SIRT3, SIRT4, SCEL, OLFM1, TERT, TERC, BCL2, DEFA1, DEFB1, ITGA1, ITGA2.

Information for the base sequence of each of these genes, and the like can be acquired from NCBI (National Center for Biotechnology Information Search term Search database). As the notation for each gene name, the official symbol of NCBI is notated with the capital letter. However, the biological species is not limited thereto. For example, a gene of mammals such as a mouse, a rat, a hamster, a pig, a guinea pig, a monkey, a dog and a cat can be used in addition to a human.

2. Probe for Evaluating the Influence of Ultraviolet Ray on the Skin

A probe generally refers to those used for capturing the nucleic acid (mRNA) of a target gene in a specimen (test sample) by hybridization, and detecting the target nucleic acid. The probe is usually a nucleic acid probe. As the “nucleic acid” constituting the probe in the invention, DNA, RNA, PNA and the like can be generally used, but DNA is preferable although the nucleic acid constituting the probe is not particularly limited.

Examples of the probe (or probe set) for evaluating the influence of ultraviolet ray on the skin in the invention include those comprising the nucleic acids of (a), (b) and (c) described below.

(a) Nucleic acids comprising a base sequence constituting at least one kind (preferably plural kinds) of gene selected from the group consisting of GBA, GLB1, CAT, OLFM1, ASAH1, MMP14, MMP17 and COL18A1

(b) Nucleic acids comprising a base sequence complementary to the nucleic acids of aforesaid (a)

(c) Nucleic acids which hybridize with nucleic acids comprising a base sequence complementary to the nucleic acids of aforesaid (a) or (b) under stringent conditions, and can detect the skin constitution-related gene

The nucleic acids of (a) described above are nucleic acids comprising a base sequence at least one kind of gene selected from the genes useful for evaluating the influence of ultraviolet ray on the skin (GBA, GLB1, CAT, OLFM1, ASAH1, MMP14, MMP17 and COL18A1), which are selected from the various skin constitution-related genes described above, and is preferably used in, for example, the aspects described below.

For example, examples of the nucleic acids of (a) described above preferably include:

[1] Those comprising the nucleic acids of (i) and (ii) described below (including a combination of the nucleic acids of (i) and (ii) described below):

(i) nucleic acids comprising a base sequence constituting at least one kind of gene selected from the group consisting of GBA, GLB1, CAT, OLFM1 and ASAH1; and

(ii) nucleic acids comprising a base sequence constituting at least one kind of gene selected from the group consisting of MMP14, MMP17 and COL18A1;

[2] Nucleic acids comprising a base sequence constituting each gene of GBA, GLB1, CAT, OLFM1 and ASAH1;

[3] Nucleic acids comprising a base sequence constituting each gene of MMP14, MMP17 and COL18A1;

[4] Nucleic acids comprising a base sequence constituting each gene of MMP14, MMP17, COL18A1, GBA, GLB1, CAT, OLFM1 and ASAH1

and the like.

Furthermore, in the invention, nucleic acids (or a portion thereof) comprising a base sequence of the gene that is the control can be also used together with the nucleic acids of (a) described above, and similarly, can be used together with the nucleic acids of (b) and (c) described below. Examples of the gene that is the positive control include genes such as ACTB, GAPDH and RPLP0.

In addition, the nucleic acids of (b) described above can be also used in evaluation of the influence of ultraviolet ray on the skin and the like in the invention similarly to the nucleic acids of (a) described above. With respect to the nucleic acids of (b) described above, the explanation for the nucleic acids of (a) described above can be similarly applied except that the nucleic acids of (b) comprises the base sequence of the complementary strand of the nucleic acids of (a) described above.

Further, the nucleic acids of (c) described above can be also used in evaluation of the influence of ultraviolet ray on the skin and the like in the invention, similarly to the nucleic acids of (a) and (b) described above.

Herein, the “nucleic acids which hybridize under stringent conditions” in the nucleic acids of (c) described above refers to, for example, nucleic acids obtained by using a colony hybridization method, a plaque hybridization method or Southern hybridization method and the like with the whole or a portion nucleic acids comprising a base sequence complementary to the base sequence of the nucleic acids of aforesaid (a) or (b) as a probe. As the hybridization method, for example, the method described in “Sambrook & Russell, Molecular Cloning: A Laboratory Manual Vol. 3, Cold Spring Harbor, Laboratory Press 2001”, “Ausubel, Current Protocols in Molecular Biology, John Wiley & Sons 1987-1997” and the like can be utilized.

In addition, the “stringent conditions” may be any one of low stringent conditions, middle stringent conditions, and high stringent conditions. Examples of the “low stringent conditions” include conditions of 5×SSC, 5×Denhardt's solution, 0.5% SDS, 50% formamide and 32° C. In addition, examples of the “middle stringent conditions” include conditions of 5×SSC, 5×Denhardt's solution, 0.5% SDS, 50% formamide and 42° C. Examples of the “high stringent conditions” include conditions of 5×SSC, 5×Denhardt's solution, 0.5% SDS, 50% formamide and 50° C. Furthermore, specifically, the “stringent conditions” in the invention are preferably conditions of 97.5 to 3200 mM of the monovalent cation concentration of the buffer and 37 to 80° C. of the temperature, more preferably conditions of 97.5 to 800 mM of the monovalent cation concentration and 50 to 70° C. of the temperature, and further preferably conditions of 195 mM of the monovalent cation concentration of the buffer and 65° C. of the temperature, or the like in the case where the base chain length is 65 bases, but are not limited thereto.

In such “stringent conditions”, nucleic acids having higher homology can be effectively obtained as the temperature is raised. However, multiple factors such as the temperature, the probe concentration, the probe length, the reaction time, the ionic strength and the salt concentration and the like are considered as factors affecting the stringency of the hybridization, and these factors can be suitably selected by a person skilled in the art to implement the similar stringency.

Furthermore, in the case where a commercially available kit is used in the hybridization, for example, Alkphos Direct Labelling Reagents (manufactured by Amersham Pharmacia Biotech Inc.) may be used. In this case, incubation with the labelled probe is performed overnight according to the protocol accompanied with the kit, and then the membrane is washed with a primary washing buffer comprising 0.1% (w/v) SDS under a condition of 55° C., and then the hybridized nucleic acids can be detected.

Examples of the nucleic acids which can hybridize in addition to those described above may include nucleic acids comprising a base sequence having a homology of 70% or higher, 71% or higher, 72% or higher, 73% or higher, 74% or higher, 75% or higher, 76% or higher, 77% or higher, 78% or higher, 79% or higher, 80% or higher, 81% or higher, 82% or higher, 83% or higher, 84% or higher, 85% or higher, 86% or higher, 87% or higher, 88% or higher, 89% or higher, 90% or higher, 91% or higher, 92% or higher, 93% or higher, 94% or higher, 95% or higher, 96% or higher, 97% or higher, 98% or higher, 99% or higher, 99.1% or higher, 99.2% or higher, 99.3% or higher, 99.4% or higher, 99.5% or higher, 99.6% or higher, 99.7% or higher, 99.8% or higher or 99.9% or higher to the base sequence of the nucleic acids of aforesaid (a) when the homology is calculated using default parameters with a homology search software such as FASTA and BLAST.

Furthermore, the homology of the base sequence can be determined using the algorithm BLAST by Karlin and Altschul (Proc. Natl. Acad. Sci. USA, vol. 87, p. 2264-2268, 1990; Proc. Natl. Acad. Sci. USA, vol. 90, p. 5873, 1993). A program called BLASTN or BLASTX was developed based on the algorithm of BLAST (Altschul S F, et al., J. Mol. Biol., vol. 215, p. 403, 1990). The parameters in the case where the base sequence is analyzed using BLASTN are, for example, score=100 and word length=12. In the case where BLAST and Gapped BLAST program are used, default parameters of each program are used. Further, the expression “can detect the skin constitution-related gene” in the nucleic acids of (c) described above means “can capture any one of the base sequences of the skin constitution-related genes (GBA, GLB1, CAT, OLFM1, ASAH1, MMP14, MMP17 and COL18A1) listed in aforesaid (a) and the base sequence of the complementary strand thereof by hybridization.

The nucleic acids of (a), (b) and (c) described above are not limited to the full length of the nucleic acids, but a portion thereof can be also used as a probe. Examples of the portion of the nucleic acids include nucleic acids comprising 30 to 5000 bases, nucleic acids comprising 40 to 1000 bases, nucleic acids comprising 50 to 500 bases, and further nucleic acids comprising 60 bases to 200 bases, and the like, but the base length is not particularly limited.

In addition, examples of the probe (or probe set) for evaluating the influence of ultraviolet ray on the skin in the invention include those comprising the nucleic acids of (α), (β), (γ) and (δ) described below.

(α) Nucleic acids comprising at least one kind of base sequence among the base sequences shown in SEQ ID NOS: 27, 30, 58, 63, 70, 84, 85 and 112

(β) Nucleic acids comprising a base sequence complementary to the nucleic acids of aforesaid (α)

(γ) Nucleic acids comprising a base sequence having a homology of 70% or higher with respect to the base sequence of the nucleic acids of aforesaid (α) or (β), and can detect the skin constitution-related gene

(δ) Nucleic acids which comprises a base sequence of which one to several bases are added, deleted or substituted in the base sequence of the nucleic acids of aforesaid (α), (β) or (γ), and can detect the skin constitution-related gene

The nucleic acids of (α) described above are a nucleic acid having the base sequences shown in SEQ ID NOS: 27, 30, 58, 63, 70, 84, 85 and 112, and the base sequences shown in the SEQ ID NOS are base sequences corresponding to a portion of the base sequences of the skin constitution-related genes in the nucleic acids of (a) described above (GBA, GLB1, CAT, OLFM1, ASAH1, MMP14, MMP17 and COL18A1). Accordingly, the nucleic acids of (α) described above can be also effectively used as a probe (or probe set) for evaluation of the influence of ultraviolet ray on the skin and the like in the invention.

In addition, examples of the nucleic acids of (α) described above preferably include aspects including all the nucleic acids comprising each of the base sequences shown in SEQ ID NOS: 27, 30, 58, 63, 70, 84, 85 and 112.

Furthermore, among the base sequences shown in SEQ ID NOS: 1 to 273 listed in the sequence listing and Tables 1 to 4 described below, the base sequences shown in SEQ ID NOS: 1 to 257 correspond to a portion of the base sequences of the skin constitution-related genes (derived from human or mouse), and the base sequences shown in SEQ ID NOS: 258 to 273 correspond to a portion of the base sequences of genes (derived from human or mouse) that can be used as a control in the evaluation and the like in the invention. Furthermore, the base sequences shown in SEQ ID NOS: 258 to 271 are positive controls, and the base sequences shown in SEQ ID NOS: 272 and 273 are negative controls. Herein, the base sequences shown in SEQ ID NOS: 27, 30, 58, 63, 70, 84, 85 and 112 in the nucleic acids of (α) described above correspond to a portion of the base sequences of the genes of MMP14, MMP17, COL18A1, CAT, GLB1, ASAH1, GBA and OLFM1, respectively in order.

TABLE 1 SEQ Accession Gene ID NO No. symbol Base sequence of nucleic acid probe 1 NM_001823 CKB CGCCGTCTGGCGAGCCCTTAGCCTTGCTGTAGAGACTTCCGTCACCCTTGGTAGAGTTTATTTTT 2 NM_001824 CKM TGGGGGCTCTCTCCACCCTTCTCAGAGTTCCAGTTTCAACCAGAGTTCCAACCAATGGGCTCCAT 3 NM_001955 EDN1 AGGAGATTCCACACAGGGGTGGAGTTTCTGACGAAGGTCCTAAGGGAGTGTTTGTGTCTGACTCA 4 NM_001956 EDN2 TTCTGCCACTTGGACATCATCTGGGTGAACACTCCTGAACAGACAGCTCCTTACGGCCTGGGAAA 5 NM_000114 EDN3 CCCGTGCAGCAGAAGCATGCGACTTTCATATCCTTGCCTAGAATAGGCTGCATGGTGTATGTCAG 6 NM_000514 GDNF CACCATCTGATACCGTAAGGAGTGCACTTGTTTGGAAGTTCTGACTTCTCTGATCTGTCTTGGTC 7 NM_002521 NPPB CTGCTTCTGATTCCACAAGGGGCTTTTTCCTCAACCCTGTGGCCGCCTTTGAAGTGACTCATTTT 8 NM_000450 SELE CTAGCCTTGAGGAGTGTGAGAATCAAAACTCTCCTACACTTCCATTAACTTAGCATGTGTTGAAA 9 NM_000655 SELL CACCTCTCTTTTTCAGTTGGCTGACTTCCACACCTAGCATCTCATGAGTGCCAAGCAAAAGGAGA 10 NM_003005 SELP TCTACGATAGGTCTGATAATGGGTGGGACGCTCCTGGCTTTGCTAAGAAAGCGTTTCAGACAAAA 11 NM_000364 TNNT2 ACTTTGAGAACAGGAAGAAAGAGGAGGAGGAGCTCGTTTCTCTCAAAGACAGGATCGAGAGACGT 12 NM_001884 HAPLN1 ACATCGTTTTGTTAAGAAGTTAACTGTATCGTAGCTCACTACTGCCAGAGCGGCAATGGATGTAC 13 NM_001523 HAS1 CGGGCTTGTCAGAGCTACTTCCACTGTGTATCCTGCATCAGCGGTCCTCTAGGCCTATATAGGAA 14 NM_005328 HAS2 GACGTTTGCAGTCACACACAACACCTTAGTTCCTCTAGGGGCTGTACAGTATTGTGGCATCAGAT 15 NM_005329 HAS3 GGGTCTTCAGCTTTATCCCCGTTTCTTGCAAGGGAAGAGCCTTTATACAATTGGACGCATTTTGG 16 NM_002026 FN1 CCCAAACACTTCTGCTTTCACTTAAGTGTCTGGCCCGCAATACTGTAGGAACAAGCATGATCTTG 17 NM_005559 LAMA1 AAGCTAACAAAAGCAAACACCGTATCACTCTGATTGTTGACGGGAACGCAGTTGGCGCTGAAAGT 18 NM_001145938 MMP1 ATGCAACTCTGACGTTGATCCCAGAGAGCAGCTTCAGTGACAAACATATCCTTTCAAGACAGAAA 19 NM_001127891 MMP2 TCACTCTACTTAGCATGTCCCTACCGAGTCTCTTCTCCACTGGATGGAGGAAAACCAAGCCGTGG 20 NM_002422 MMP3 TTCCCAAGAGAAGGGGAAGCACTCGTGTGCAACAGACAAGTGACTGTATCTGTGTAGACTATTTG 21 NM_002423 MMP7 CTTGGCCATTCTTTGGGTATGGGACATTCCTCTGATCCTAATGCAGTGATGTATCCAACCTATGG 22 NM_004994 MMP9 ACGTCTTCCAGTACCGAGAGAAAGCCTATTTCTGCCAGGACCGCTTCTACTGGCGCGTGAGTTCC 23 NM_002425 MMP10 CACACATATTAAAGAGTAACAGCTGGTTACATTGCTAGGCGAGATAGGGGGAAGACAGATATGGG 24 NM_005940 MMP11 TGTCTCAGACTGGGCAGGGAGGCTTTGGCATGACTTAAGAGGAAGGGCAGTCTTGGGCCCGCTAT 25 NM_002426 MMP12 AGGAGGCACAAACTTGTTCCTCACTGCTGTTCACGAGATTGGCCATTCCTTAGGTCTTGGCCATT 26 NM_002427 MMP13 GGGGAGGGTGCTTGGCACTTATTGAATATATGATCGGCCATCAAGGGAAGAACTATTGTGCTCAG 27 NM_004995 MMP14 GCACGGGGTAGGGGAAATGGGGTGAACGGTGCTGGCAGTTCGGCTAGATTTCTGTCTTGTTTGTT 28 NM_002428 MMP15 GGTGGGGCTGCGGGGGTTCCGTGTCCACCCCCATACATTTATTTCTGTAAATAATGTGCACTGAA 29 NM_005941 MMP16 GGGCCAAGAAAGCAAGAAATGAGAACCAGAGTCAGCCCTGTAGCTTTACTTCAGTGCTTCCATTC 30 NM_016155 MMP17 ATT1CTTTAAGGACCAGCTGTACTGGCGCTACGATGACCACACGAGGCACATGGACCCCGGCTAC 31 NM_006690 MMP24 TTATTAGCTCACACCTGTCCACTCACATGAAACTCGTGTTAGGCCCTGGGAGGCCGACGGTAACT 32 NM_022468 MMP25 ATGGCCTGAACCCCATGGGTAGAGTCACTTAGGGGCCACTTCCTAAGTTGCTGTCCAGCCTCAGT 33 NM_003254 TIMP1 TTCCCTGTTTATCCATCCCCTGCAAACTGCAGAGTGGCACTCATTGCTTGTGGACGGACCAGCTC 34 NM_003255 TIMP2 TGACAAGCAGACTGCGCATGTCTCTGATGCTTTGTATCATTCTTGAGCAATCGCTCGGTCCGTGG 35 NM_000362 TIMP3 TTGGGGGTAGAGGCTTCTTAGATTCTCCCAGCATCCGCCTTTCCCTTTAGCCAGTCTGCTGTCCT 36 NM_003256 TIMP4 GCCCCTGCCTCCCAAACCCCATTAGTCTAGCCTTGTAGCTGTTACTGCAAGTGTTTCTTCTGGCT 37 NM_000902 MME CCCATGAATCTGTCTCCCAGTTATGAATCAGTGGGCAGGATAAACTGAAAACTCCCATTTACGTG 38 NM_005242 F2RL1 CCTGCATGGTGTTTATGCACACAGAGATTTGAGAACCATTGTTCTGAATGCTGCTTCCATTTGAC 39 NM_002197 ACO1 AACCTTCTCAGGAGGTGTCTCCTACCCTCTTATTGTTCCTCTTACGCTCTGCTCAATGAAACCTT 40 NM_001098 ACO2 ACCTTCAACGAGACGCAGATTGAGTGGTTCCGCGCTGGCAGTGCCCTCAACAGAATGAAGGAACT 41 NM_172390 NFATC1 AAAACTGACCGGGACCTGTGCAAGCCGAATTCTCTGGTGGTTGAGATCCCGCCATTTCGGAATCA 42 NM_003352 SUMO1 AGGCGTAGCGGAAGTTACTGCAGCCGCGGTGTTGTGCTGTGGGGAAGGGAGAAGGATTTGTAAAC 43 NM_006937 SUMO2 TCTTCTGCCGCTCCTGGTGCTGCTTGTGTGCTCGTTTGGTGCGGACCTGGTACCTCTTTTGTGAA 44 NM_006936 SUMO3 CCCATGGAATGATGACTTCATGTTCTTCTCGTGGGTTTGTGCCGTGCTGCTTTCCAAATAGGTAT 45 NM_001124 ADM CCCACAAACTGATTTCTCACGGCGTGTCACCCCACCAGGGCGCAAGCCTCACTATTACTTGAACT 46 NM_004878 PTGES CCTAGACCCGTGACCTGAGATGTGTGATTTTTAGTCATTAAATGGAAGTGTCTGCCAGCTGGGCC 47 NM_000961 PTGIS GGGAGAGATGAGTGGGTTAGCTACCTGCTATGCGCTAGTTAGGAAGTTACCTGGATGCCATTGTA 48 NM_001145 ANG AACCTAAGAATAAGCAAGTCTTCTTTCCAGGTCACCACTTGCAAGCTACATGGAGGTTCCCCCTG 49 NM_000459 TEK CTCACCTGTAGCAGCCAGTCCCGTTTCATTTAGTCATGTGACCACTCTGTCTTGTGTTTCCACAG 50 NM_005424 TIE1 GCATGCTGGAAGCCAGGAAGGCCTATGTGAACATGTCGCTGTTTGAGAACTTCACTTACGCGGGC 51 NM_000201 ICAM1 GACGGATGCCAGCTTGGGCACTGCTGTCTACTGACCCCAACCCTTGATGATATGTATTTATTCAT 52 NM_001078 VCAM1 GGGAGCACTGGGTTGACTTTCAGGTACTAAATACCTCAACCTATGGTATAATGGTTGACTGGGTT 53 NM_002253 KDR GGCATGGGGTCTGTTCTGAAATGTAAAGGGTTCAGACGGGGTTTCTGGTTTTAGAAGGTTGCGTG 54 NM_000088 COL1A1 CTGTTCCTTGTGTAACTGTGTTGCTGAAAGACTACCTCGTTCTTGTCTTGATGTGTCACCGGGGC 55 NM_000089 COL1A2 AGGAGCTCCAAGGACAAGAAACACGTCTGGCTAGGAGAAACTATCAATGCTGGCAGCCAGTTTGA 56 NM_001845 COL4A1 TCAGCAGGGCATCGCATGGACCGCAGGAGGGCAGATTCGGACCACTAGGCCTGAAATGACATTTC 57 NM_000493 COL10A1 ATCAGACCAACAAACCTTCCCCCTGAAAAGTGAGCAGCAACGTAAAAACGTATGTGAAGCCTCTC 58 NM_030582 COL18A1 TGTGCACAAAACCCAGACCTGTTAGCAGACAGGCCCCGTGAGGCAATGGGAGCTGAGGCCACACT 59 NM_001035256 POMC GGGGGTCGTGGCAGATAATCAGCCTCTTAAAGCTGCCTGTAGTTAGGAAATAAAACCTTTCAAAT 60 NM_000454 SOD1 GCCCAATAAACATTCCCTTGGATGTAGTCTGAGGCCCCTTAACTCATCTGTTATCCTGCTAGCTG 61 NM_000636 SOD2 GGCAGCTCATGCTTGAGACCCAATCTCCATGATGACCTACAAGCTAGAGTATTTAAAGGCAGTGG 62 NM_003102 SOD3 ACTCAGTAGGTCTGAAGGCCTCCATTTGTACCGAAACACCCCGCTCACGCTGACAGCCTCCTAGG 63 NM_001752 CAT GCCTTCTGCCCTGGAGCACAGCATCCAATATTCTGGAGAAGTGCGGAGATTCAACACTGCCAATG 64 NM_000581 GPX ACGAGGGAGGAACACCTGATCTTACAGAAAATACCACCTCGAGATGGGTGCTGGTCCTGTTGATC 65 NM_000637 GSR GTGAAGTGCATCAAACTTGGGAAAGATTTGAGGAGGCTGGGAACCTCCTGGAAAACCACTCCTTG 66 NM_000370 TTPA GCCTGGCCGTGATAGAAACTTTCAGCTGAGGAGTCTATATGCCATACTACTCTATGTGGCATCTT 67 NM_000501 ELN AATAGCCACCTTGCCCTTGTAGAATCCATCCGCCCATCCGTCCATTCATCCATCGGTCCGTCCAT 68 NM_007046 EMILIN1 TGATCTGGCTGACCTGGGGGCAACCAAGGACCGTATCATTTCTGAGATTAACAGGCTGCAGCAGG 69 NM_032048 EMILIN2 CGGTTTGTATGTAATGGAAGCACGGGGCTAGAGTTTCCACATAGGCCCCAACATAAAGGCCTTCC 70 NM_000404 GLB1 ATGAAGCCTGGGCCCACAACTCATCCAACTACACGCTCCCGGCCTTTTATATGGGGAACTTCTCC

TABLE 2 SEQ Accession Gene ID NO No. symbol Base sequence of nucleic acid probe 71 NM_024756 MMRN2 CCTTGCCTTACATAGGGTAAAGACCAAGAAATGCCAAACGTGAACTAAAATATGTAGGGCCTTCA 72 NM_001972 ELANE TCGCCGTGCAGCGCATCTTCGAAAACGGCTACGACCCCGTAAACTTGCTCAACGACATCGTGATT 73 NM_003480 MFAP5 CAAGTGCACGGTCGAATTATTGTGCAAGTGGCTTTTGGATATCCTGATTGGGGCCTAAGAAGGGC 74 NM_000052 ATP7A GCCAAATGGATTTAGAAATTCCCTTGTGAGTGCCTGGTAGCTAATACACTGGTCAGAGATCTGGT 75 NM_000575 IL1A GGCGTAGGTCTGGAGTCTCACTTGTCTCACTTGTGCAGTGTTGACAGTTCATATGTACCATGTAC 76 NM_000576 IL1B AATCCCCAGCCCTTTTGTTGAGCCAGGCCTCTCTCACCTCTCCTACTCACTTAAAGCCCGCCTGA 77 NM_000758 GM-CSF GGCCCGGCGTCTCCTGAACCTGAGTAGAGACACTGCTGCTGAGATGAATGAAACAGTAGAAGTCA 78 NM_000963 PTGS2 GATCTGCTGACAAAACCTGGGAATTTGGGTTGTGTATGCGAATGTTTCAGTGCCTCAGACAAATG 79 NM_000594 TNFA CCTAGAAATTGACACAAGTGGACCTTAGGCCTTCCTCTCTCCAGATGTTTCCAGACTTCCTTGAG 80 NM_000600 IL6 ACAGCCACTCACCTCTTCAGAACGAATTGACAAACAAATTCGGTACATCCTCGACGGCATCTCAG 81 NM_000584 IL8 GTTTCTCCTTTATTTCTAAGTGGAAAAAGTATTAGCCACCATCTTACCTCACAGTGATGTTGTGA 82 NM_133492 ACER1 ACTATCCAACCACCCAACAACTTGCCTGTGTCTTGAGAAGATAGCCCCGGTCAGGACTTGCACCT 83 NM_001010887 ACER2 CCAGGAACTCTTACTCTAGTTAGAATTTGTACCAGATCCAAGGTGAAAACCCCAATAAGCAACTG 84 NM_177924 ASAH1 GCTGTCTGACCTTCCAAAGACTAAGACTCGCGGCAGGTTCTCTTTGAGTCAATAGCTTGTCTTCG 85 NM_000157 GBA GACATCACCAAGGACACGTTTTACAAACAGCCCATGTTCTACCACCTTGGCCACTTCAGCAAGTT 86 NM_147156 SGMS1 CCTCCCTAATCCTATTATCTTTCAATGGTTACCTTGACTTAACCTATTGAGTTACCTGGTCAGCA 87 NM_001807 CEL CAACATGGACGGCCACATCTTCGCCAGCATCGACATGCCTGCCATCAACAAGGGCAACAAGAAAG 88 NM_000153 GALC CCATACCCTTAGGAGTGGTTTGAGTAGTACAGACCTCGAAGCCTTGCTGCTAACACTGAGGTAGC 89 NM_006415 SPTLC1 GGTGGGTTTGCCTAGGGACGTGTAACTACAGGCTTTTACTAAGCCAAGGAAAAAGAGAATTTTTC 90 NM_021267 LASS1 CACCCTTATGAACCTCTACTGGTTCCTGTACATCGTGGCGTTTGCAGCCAAGGTGTTGACAGGCC 91 NM_203463 LASS6 CGGGACCTAAGAAAGTCTCTGCAGCCAGATAGTACATGGTGTCTCCACAAAACTAGGCATTCTGG 92 NM_003676 DEGS1 CCAGTGATGCTCAGAAGCTCCCCTGGCACAATTTCAGAGTAAGAGCTCGGTGATACCAAGAAGTG 93 NM_002016 FLG GGCAGCTATGGTAGTGCAGATTATGATTATGGTGAATCCGGGTTTAGACACTCTCAGCACGGAAG 94 NM_001014342 FLG2 GTGGGGGAGACAAAGGCAAGAGTCAGAGTCAAGTCTGTCAGGAGGTATCAGAATATACGGTGAGG 95 NM_006121 KRT1 AGCTCTAGTTCTCCCCCAGCATCACTAACAAATATGCTTGGCAAGACCGAGGTCGATTTGTCCCA 96 NM_000423 KRT2 TTTCATCAAATGTGGCATCCAAGGCTGCCTTTGGAGGTTCTGGAGGTAGAGGGTCCAGTTCCGGA 97 NM_057088 KRT3 TCTTTTTGAGAATCACATCAACTACCTGCGGAGCTACCTGGACAACATCCTCGGGGAGAGAGGGC 98 NM_002272 KRT4 TCTCCCACTAGATCCTGTATTATCCATCTACATCAGAACCAAACTACTTCTCCAACACCCGGCAG 99 NM_002009 FGF7 CACGCAGCTGGGTAGATATACAGCTGTCACAAGAGTCTAGATCAGTTAGCACATGCTTTCTACTC 100 NM_003654 CHST1 GGCACTCGCGAGGCGACTTCTCAAGCTTTTGAATGGGTGAGTGGTCGGGTATCTAGTTTTTGCAC 101 NM_004267 CHST2 GCCCCATTGGGCATGATAAGCCGAGGAGGCATTCTTCTAAAGCAGACTTTTGTGTAAAAAGCAAA 102 NM_005213 CSTA GTTCCCTGTGGCTGCTGATAACCCAACATTCCATCTCTACCCTCATACTTCAAAATTAAATCAAG 103 NM_006563 KLF1 GCTTCCCAGAGACCCTGGGTCTAGAAAGCGGCTCCTGAAGGTCCCTTATTGTGGCTGATATTAAC 104 NM_001963 EGF CCTGCAGCCCCAGAAGAAATTAGGGGTTAAAGCAGACAGTCACACTGGTTTGGTCAGTTACAAAG 105 NM_001945 HBEGF GGATGTAGGGGTTAACTTGGTCAGAGCCACTCTATGAGTTGGACTTCAGTCTTGCCTAGGCGATT 106 NM_001657 AREG GCCAAGTCATAGCCATAAATGATGAGTCGGTCCTCTTTCCAGTGGATCATAAGACAATGGACCCT 107 NM_012238 SIRT1 GGCGGCTTGATGGTAATCAGTATCTGTTTTTGCCACCAAATCGTTACATTTTCCATGGCGCTGAG 108 NM_012237 SIRT2 GGCTAAGTAAACCATACCTAACCTACCCCAGTGTGGGTGTGGGCCTCTGAATATAACCCACACCC 109 NM_012239 SIRT3 CTTTCTGTGCCTAGTTGAACGGCAAGCTCGGCATCTGTTGGTTACAAGATCCAGACTTGGGCCGA 110 NM_012240 SIRT4 TACTGAACATTGGGCCCACACGGTCGGATGACTTGGCGTGTCTGAAACTGAATTCTCGTTGTGGA 111 NM_144777 SCEL AATTGAAGTAAATTCTCATGTGTCTGAAAACAAGAATGGAAGCTCTAACACTGGAGCCAAGCAGG 112 NM_014279 OLFM1 GGCCCACGTCCTCACCACAAAGGGACTCCTGTGAAACTGCTGCCAAAAAGATACCAATAACACTA 113 NM_198253 TERT AGACGGTGTGCACCAACATCTACAAGATCCTCCTGCTGCAGGCGTACAGGTTTCACGCATGTGTG 114 NR_001566 TERC TTTTTGTCTAACCCTAACTGAGAAGGGCGTAGGCGCCGTGCTTTTGCTCCCCGCGCGCTGTTTTT 115 NM_1000633 BCL2 CTCCAGTTGGCCACCATTAGCTATAATGGCACTTTGTTTGTGTTGTTGGAAAAAGTCACATTGCC 116 NM_004084 DEFA1 ATGGCCTGCTATTGCAGAATACCAGCGTGCATTGCAGGAGAACGTCGCTATGGAACCTGCATCTA 117 NM_005218 DEFB1 ACCTGTTACAGAGGGAAGGCCAAGTGCTGCAAGTGAGCTGGGAGTGACCAGAAGAAATGACGCAG 118 NM_181501 ITGA1 TGACCCAAAGAAAGAGTTGTCTCAACTCCTTGGTACAGGGTTCATTCAAACCCCCAAGCTGTGAG 119 NM_002203 ITGA2 GGAACTTGAAAGCTTTGGTTAGCCTTGCCTTAGGTAATCAGCCTAGTTTACACTGTTTCCAGGGA 120 NM_007312 HYAL1 ATCAAGGAGTATATGGACACTACACTGGGGCCCTTCATCCTGAACGTGACCAGTGGGGCCCTTCT 121 NM_003773 HYAL2 CAACTTTGTGAGCTTCCGTGTTCAGGAGGCCCTTCGTGTGGCTCGCACCCACCATGCCAACCATG 122 NM_004132 HABP2 AAAATGCAGACTGTCATATCCAGCGAGTCCCTGACCCTTTCTGCGAATGTAACGAGCAAGCAGTC 123 NM_014282 HABP4 CTCACTTAGTCCTGGCTCCAGTTCTAGAGTTCCTCTTTATTGCTTTTGGTGAAAGTTTGGGGTTG 124 NM_001884 HAPLN1 ACATCGTTTTGTTAAGAAGTTAACTGTATCGTAGCTCACTACTGCCAGAGCGGCAATGGATGTAC 125 NM_002204 ITGA3 TCCATCTTGAGCCACAGTCACTGGATTGACTTTGCTGTCAAAACTACTGACAGGGAGCAGCCCCC 126 NM_000885 ITGA4 GCAAAAGAGTGCAATGCAGACCTTGAAAGGCATAGTCCGGTTCTTGTCCAAGACTGATAAGAGGC 127 NM_005353 ITGAD ACCCAGGGACCTGAGTGCCTCTCTGGGAATAGTCGGGGGAACCTATTTGTGGGCATTGAAAAAGT 128 NM_001114380 ITGAL CCCTGTTTAATGATTGACGTACTTAGCAGCTATCTCTCAGTGAACTGTGAGGGTAAAGGCTATAC 129 NM_000632 ITGAM CCTCTCGTTTGACTGGTACATCAAGACCTCGCATAACCACCTCCTGATCGTGAGCACAGCTGAGA 130 NM_000211 ITGB2 ATTAACCAGAAATCCAGTTATTTTCCGCCCTCAAAATGACAGCCATGGCCGGCCGGGTGCTTCTG 131 NM_021273 Ckb AAGTCCAAGAACTATGAGTTCATGTGGAATCCTCACCTGGGCTACATCCTCACATGCCCATCCAA 132 NM_007710 Ckm ATGCCCGTGGCATCTGGCACAACGACAACAAAAGCTTCCTTGTGTGGGTGAACGAGGAGGACCAC 133 NM_010104 Edn1 CTTGACCTTGGGAAACACAATGGTTTAGAGTTGTTTGTGTACATGTTGAAAACCTGGTCTGTGCT 134 NM_007902 Edn2 TGGTTGCTAGCTACTGTACCTGCTTGGAGGAGCTATGTGAGGACAAATGAACATGCTGACTGTAT 135 NM_007903 Edn3 CAAAGCATCTGAGAATTATCTCCAGAAGTGATCACAGTAGCAAGGCCACACAGGACATAAAAGCA 136 NM_010275 Gdnf TTGTCTGGCAGCCAACAAACAGGTCATGCCTTGAGTCCTATGTTAGAGCCTTGAGTCCTATGTTA 137 NM_008726 Nppb TGGATCTCCTGAAGGTGCTGTCCCAGATGATTCTGTTTCTGCTTTTCCTTTATCTGTCACCGCTG 138 NM_011345 Sele GTCCTGGCACTGAAGCCAGCATGAGATCCATCATTCTTATGTCAGCTCAAGGGTCAAAAGGACTT 139 NM_011346 Sell ATTGGAAAATAACGTCAAGTCCTCCCGTGAAGATTTTACACGCAGGCATCTCCCACATTAGAGAT 140 NM_011347 Selp TATGACCCAACCCCTTAAGAAACCCGGTCTGCCAATGTCTCATTCGATTTCTCAGGATTCCACAT

TABLE 3 SEQ Accession Gene ID NO No. symbol Base sequence of nucleic acid probe 141 NM_011619 Tnnt2 AAAACTCGTGGGAAGGCCAAAGTCACCGGGCGTTGGAAATAGATGAAACTGTTCTCGTCAAAGCT 142 NM_013500 Hapin1 CCTTTTTGAGAAGTATGTCATTGCTCAAGACTGCCAGCACAGTGTACAGCAAAAGCTATGAATAA 143 NM_008215 Has1 ATGCACCACTCTACATGTGCGGCCTCCTGCCTGCCAAATTCCTAGCGTTGGTTACCATGAATCAA 144 NM_008216 Has2 CCCTTACTGTGCATCTGCCTGACAGTGTTTGTTCTAAATACCTCACTTGCCATGCTTTGTGTGGG 145 NM_008217 Has3 TGAGTTTCTGTCACCCCGTAGCCCCACCTGTTGTCCACTGTAGGTGCCATTCCGGTGCTGTTTTT 146 NM_010233 Fn1 GAACAAACACTAACGTAAATTGCCCCATTGAGTGCTTCATGCCGCTAGATGTGCAAGCTGACAGA 147 NM_008480 Lama1 TTGTAGATGGCAAGGTCTTATTTCACGTCAACAACGGTGCCGGAAGGATAACAGCCACCTACCAG 148 NM_008610 Mmp2 CCTCCTCTGTAGTTAACCAGCCTTCTCCTTCACCTGGTGACTTCAGATTTAAGAGGGTGGCTTCT 149 NM_010809 Mmp3 GTGCTTTGTTCAGCATGTGCTATGGCAGAACCAAACAGGAGCTATGGATGACACCAGTCAACGTC 150 NM_010810 Mmp7 CACCTACAGAATTGTATCCTATACTTCAGACTTACCTCGGATCGTAGTGGATCAAATCGTGAAAA 151 NM_013599 Mmp9 GGGCGCGGCTCCAACCGCTGCATAAATATTAAGGTATTCAG1TGCCCCTACTGGAAGGTATTATG 152 NM_019471 Mmp10 CTCTCGGTTTTCCTCCCACCGTGAAGAAGATTGATGCAGCTGTTTTTGAAAAGGAGAAGAAGAAA 153 NM_008606 Mmp11 TTTCCTGGTAAGTCAGCTCTGGAGAGATAGTGAACTGATCATATTCTGGCAGGTGATTCAGACAA 154 NM_008605 Mmp12 ATCAACTTCATGAGATCCAGAGTCATGTAAGAGACATGTGAGCACTACTTCAAAGAAGGTAAATG 155 NM_008607 Mmp13 CCATGTTTGTTAATCCCTCTCTGCTTTCCTTAGCGAGTAACACTTGGTGCTTACTGATGTGTGAA 156 NM_008608 Mmp14 CCTAGTTGGCTGCCTCCCGCCACTCTGACTAAAAGGAATCTTAAGAGTGTACATTTGGAGGTGGA 157 NM_008609 Mmp15 ACTTAACATTTGGTAGTGATAAGAGGAGAGGACAGCCCAGCTTCCCAAATGACTCCACATCTGGC 158 NM_019724 Mmp16 GAAAGCCATAGCTATTGTCATTCCCTGCATCTTGGCCTTATGCCTCCTTGTATTGGTTTACACTG 159 NM_011846 Mmp17 TAAGTGTCAGGGTCCTCGGGGAGTCATGACAATGTTACCGCCTAACTTGGAGATGTAGGAGCTGT 160 NM_011985 Mmp23 GTGGACAGAAGATCCTACACAAGAAAGGGAAAGTATACTGGTACAAGGACCAGGAACCCCTGGAG 161 NM_010808 Mmp24 TCAACAGCTGCAGGAGCTGACCCTGGTTCTGGGGGCGGATGCAAGTTTGTGACCATTCTCTACTC 162 NM_001033339 Mmp25 CTAGGGTCATCACCCTGAACTCAGGATTGCCCCATTCATTTGGAAGGGATCTTATGATTCCTGTC 163 NM_011593 Timp1 GTGAAGAGTTTCTCATCACGGGCCGCCTAAGGAACGGGAAATTTCACATCAATGCCTGCAGCTTC 164 NM_011594 Timp2 CCTCCCTCCCTTACTCCCGTCATGCCAGCAACTCGCAATATTTCAGATGACGTTTACATGGTAGC 165 NM_011595 Timp3 TAGATCTAAGTCAGCTGTTTGGGTTGAGGAGGAGAGAACCCGAGGAAATGACCATGCTCTGGGGA 166 NM_080639 Timp4 AACCACATCCTTGGAAGCATTCTGAAGACCAAGCCAGTTCTCTGTGGTCCTTTGACCATCACCAC 167 NM_008604 Mme CTACAGCTCATGGACTCTAATTGGATTTCCTGAGGCACTCATATGCCTTCCTTGTCCTTCTGCTT 168 NM_007974 F2RL1/ AACAAGGGGCCATTGCAGGAGTACATGGCTCCAGGCTTACTTTATATACTGCCTGTATTTGTGGC PAR2 169 NM_007386 Aco1/ CTTACCATTTTCAACGATTGTTGACAGGGGTCCTTTGTTTGAAAATAACTGGGGAGAGATACGGG IRP1 170 NM_080633 Aco2/ AGCCTCAGCCCAGTGAACCACCATTGAGGGCGTTTAAGATAATGTTCCAGCCCCGCCTTCCTGTT Irp2/ Mtf1 171 NM_ 001164109 Nfatc1 CCACCACCATTGTGGTCTCGGGGACCAACCGTATTTCCACACCATTAGACTGTGAGCTCCTTCAG 172 NM_009460 Sumo1 CTGAACTGTGGAAAATGACCTTTCCTCAGCTTGAAGCTACTTTTAAAATCTGCGGGTCTGGACCA 173 NM_133354 Sumo2 CTGGGGAAAAATACTGGGTTTGTGAAAATACCCCCTTCTCCACTAGTGGCATGCTCATTCAGCTC 174 NM_019929 Sumo3 CTCCAGGCATTTAATTGACTTAAGTTTCTTATCGGCCTGACACCCAAGTACATCATTGTAGAACC 175 NM_009627 Adm ACATTTCAGAAATTGGCCCACCAGATCTACCAGCTAACAGACAAAGACAAGGACGGCATGGCTCC 176 NM_022415 Ptges GGGCAGGGAGGTGAGTTACGCTAATGCTGGCCAGGATGTATAAAGAAATTCAAGTGTGCACACCT 177 NM_008968 Ptgis AGGACACAGAGGTTCCTGAGTTTGACCTCAGCAGATATGGCTTCGGTCTGATGCAGCCAGAGGAA 178 NM_001161731 Ang CTTTTTATCTCCCCTCATAGCCCAGAACACTGGTTCCATCGTTCATTGTCAGGGGCCAGAAAAAC 179 NM_013690 Tek ATGTGGGTTACTACACAAGAGGCCGAACATTCCAAGTAGCAGAAGAGAGGGTCTCTCAACTCTGC 180 NM_011587 Tie1 CACCTAAAGCAGCATGCATGTTACTAACACCCTGTTTAGCCCCCGACTCTCTGCTTATACTCAGA 181 NM_010493 Icam1 CTACTTTTGTTCCCAATGTCAGCCACCATGCCTTAGCAGCTGAACAATCGAGCCTCATGCTCATG 182 NM_011693 Vcam1 TGATCCCTTGCTGAATGCAAGGAGCTAACCAGAAAAGTTCTGCTTGACAAGTCCCCATCGTTGAA 183 NM_010612 FIk1 TGGTCTCACTACCAGTTAAAGCAAAAGACTTTCAAACAGTGGCTCTGTCCTCCAAGAAGTGGCAA 184 NM_007742 Col1a1 AGGAATTCGGACTAGACATTGGCCCTGCCTGCTTCGTGTAAACTCCCTCCACCCCAATCTGGTTC 185 NM_007743 Col1a2 GGTGGCAGCCAGTTTGAATACAACGTAGAAGGGGTGTCCTCCAAGGAAATGGCAACTCAGCTCGC 186 NM_009931 Col4a1 TCAGGGTTTGCAACACTAACCACAGACTGAATGACTGACTTCCCGTACGACAGCCAAGGCCTTTG 187 NM_009925 Col10a1 ATCCTATTCTCCGCTTAGAAAGGCTTTCCACCCAATTCCATCGCGCCCTCCCTGGAGATGCATTT 188 NM_001109991 Col18a1 GACATCAGCTTGAAGTCCAGAAATCTCACAGCAGCCACATGAAGCACTTGTCCTATGAAGGGACT 189 NM_008895 Pomc TTCCTGGCAACGGAGATGAACAGCCCCTGACTGAAAACCCCCGGAAGTACGTCATGGGTCACTTC 190 NM_011434 Sod1 ACTCTAAGAAACATGGTGGCCCGGCGGATGAAGAGAGGCATGTTGGAGACCTGGGCAATGTGACT 191 NM_013671 Sod2 TAATAAGATCTCTTTAGATCAGCGAAGCCCCTGTTTATCTGAGAGGCGCCGCCTGCCATGAGTAC 192 NM_011435 Sod3 AAGTTCCATGTTCCCGATCACCTCCTGCGGAGGCCCCAGGTTCTG1TTTCATCTGTTTCCCATAT 193 NM_009804 Cat TCTTCTGGACAAGTACAACGCTGAGAAGCCTAAGAACGCAATTCACACCTACACGCAGGCCGGCT 194 NM_001083929 Gpx GCCCAAAGGAAACACAAGTTCTAGGTCCAATGGTTCTGCTCAAACCTGAACATCATTCTTGGGGC 195 NM_010344 Gsr TGAGGCTGGTTAGGTAAAGGAGAAATGACAGTACATGCAAGACGGAAGGCTGAGGCACTCGGGAG 196 NM_015767 Ttpa CCTTCAGTGTCTTTGCTAGATCAAGTGCAGACGCTGCACACAATCTCTAGTTCCTCTAGTTCTGG 197 NM_007925 Eln TTGGTACCCAAATACCGGAAGCCTTGACGATGGATTTGGTGACATGATCCCTCTCTCTTTGGTTC 198 NM_133918 Emilin1 AATCGGTCACTCCGTACGTTGTGACTGCGTGGTCTATGGGACCGAGGCATCTCCTCTTGACCTTT 199 NM_145158 Emilin2 GGCAGACTGGCTCACACAGACTTTGATGAAATGTACTCCACCTTCAGTGGTGTTTTCTTGTACCC 200 NM_009752 GLB1 GACGGTCGACCTCCAATTCTTCGGACCTCATACTCCCCACCTTTTACGTGGGCAACTTCTCCATC 201 NM_153127 MMRN2 ACGCCCTGCTTCACTCTGTAAAGGCCAACATATCAAATAGGGACAATGTTGTGCATGGCCTTCAC 202 NM015779 Elane ACTTCGTCATGTCAGCAGCCCACTGTGTGAACGGCCTAAATTTCCGGTCAGTGCAGGTAGTGCTG 203 NM_015776 Mfap5 CCGGCTTCCTACCCTACTCTAATTTTCACTGGTGCTGGTAACGTTTGTCTCATTTTGCGGTACTG 204 NM_001109757 Atp7a AATCTGTTGTCTCTCAGATCCCGCTGCCCTGCTGCTGTCACTTAGAACACGAAACAAAGGAATGT 205 NM_010554 IL1a GGAACATCCTTAAATCCTCTGAGCTTGACAGGCATCCTCACAGCAGGATTTTCTAGGTGGTCAGT 206 NM_008361 IL1b CATTAGGCAGCACTCTCTAGAACAGAACCTAGCTGTCAACGTGTGGGGGATGAATTGGTCATAGC 207 NM_009969 GM-CSF CCCCAACTCCGGAAACGGACTGTGAAACACAAGTTACCACCTATGCGGATTTCATAGACAGCCTT 208 NM_011198 P t g GGCTGTTGGAATTTACGCATAAAGCAGACTGCATAGATCCAATATTGACTGACCCAAGCATGTTA s 2 209 NM_013693 Tnfa CTGAACCTCTGCTCCCCACGGGAGCCGTGACTGTAATCGCCCTACGGGTCATTGAGAGAAATAAA 210 NM_031168 IL6 ATCTACTCGGCAAACCTAGTGCGTTATGCCTAAGCATATCAGTTTGTGGACATTCCTCACTGTGG

TABLE 4 SEQ Accession Gene ID NO No. symbol Base sequence of nucleic acid probe 211 NM_175731 Acer1 TGAACAGATGGGTGTGTGGCTGATACAGCACCTGCCTGAAGCATAATGCTTGCTCTCTGTCAGCT 212 NM_139306 Acer2 ATGGTCTCTGGGGACACCCAGCTAGGGCCTTCCCCAACTCCTTATCCAGCTGAACTTGGATTCTT 213 NM_019734 Asah1 CTCCTTCCATAGGCTAAGGCTCAAGGCCTCTTGTCTTTAGTCAGGACTGTCCTCATCATGTTACA 214 NM_001077411 Gba TCTGCAGTTGTGGTCGTGTTAAACCGATCTTCGGAGGATGTCCCTCTTACCATCAGTGATCCTGA 215 NM_001168525 Sgms1 GTGCTTCTTGGGAGAGAAATTTGTCTATGTTTCTAGTGCCTTTCTTGTCTTGATTGTATGGTCGG 216 NM_009885 Cel AGCGCCAAGACCTATTCTTACCTGTTTTCCCACCCTTCACGGATGCCTATCTACCCCAAATGGAT 217 NM_008079 Galc CCCATATAAGCTGGTGCCGTAGGCGAATCTAACTGCTTCCCTGTTCATTTCTTGTGCCTTTTGCA 218 NM_009269 Sptic1 CTCTATAAATTCCAGATGCCTCCGAAAAATAGGGATGCTCTAAACGTGATTTCCGAGCTCTACAC 219 NM_138647 Lass1 TTCCTGTACATTGTGGCTTTCGCAGCCAAGGTGCTGACTGGTCAGATGCGTGAACTGGAAGACTT 220 NM_172856 Lass6 CTGTCCGCGGAATCGTATCCACATATGGCAGGCCATAGCTCTCAGAAAGTCTGACTTGTAAATCC 221 NM_007853 Degs1 CTCTCTGGTTTACTAAGCTAGCCTTAGTGGAATTTCTTTGGTCTGTCTCTGGTACCCCACGTGAT 222 XM_485270 Flg GTGGTCAGGGAGGATATGAGTCCATATTTACAGCAAAGCACCTTGATTTTAATCAATCTCACAGC 223 XM_485270 Flg2 GTGGTCAGGGAGGATATGAGTCCATATTTACAGCAAAGCACCTTGATTTTAATCAATCTCACAGC 224 NM_008473 KRT1 ATCCAGCTCAGGTGGCGGTGGCGTTAAGTCCTCTGGCAGTTCTACCGTGAAGTTTGTTTCCACCA 225 NM_010668 KRT2 TCATCTGTGGCATCTAAGACTGGCTTCGGCTCTGGGGGTCAAAGTTCTGGAGGAAGAGGGTCTTA 226 NM_008475 KRT4 TCTTCTGGGGGCTTCGGCAGCAGAAGTCTTTACAACCTCGGGGGTCACAAGAGTATCTCCATGAG 227 NM_008008 FGF7 ACCTATGCATCAGCTAAATGGACACACAGCGGAGGGGAAATGTTCGTTGCCTTAAATCAAAAGGG 228 NM_023850 Chst1 ACAACTGGTAGTTTTGCAATTGTCTTCTCAAGGTAAGAGGATGGACACAAAGGGGCCGTACCTCC 229 NM_018763 Chst2 AGACTGAAGAATCGTGGTGTAGACTGTGGCCAAACAGAGCAATGGCCACTGTCAGAAAGTCCATC 230 NM_001033239 Csta CCCCC1TTTAGTCCAGGAGGGATTTGCACTAGTGAGTACCAGGATTCTAATAAAAGGCTCTTTTC 231 NM_010635 Klf1 GCACAAGGACTGGGGATGAAATAAGAGTGGATCCAAGGACCGTATCCCAAAAGATGGGCCATTAT 232 NM_010113 Egf AACCAGGCTGATGATGGTAGAGTGCTACAGACTTGGTACTCCAGTTTCCACGGCTAATCACTGCT 233 NM_010415 Hbegf TGAGTTGGACTGCAGTCTTGCCTAGGTGATTTTTGTCTACCGTTCGTGTTCCGAAAGCCCAAGGT 234 NM_009704 Areg CTTCAGGGAATATGAAGGAGAAACAGAAGAAAGAAGGAGGCTTCGACAAGAAAACGGGACTGTGC 235 NM_019812 Sirt1 CCAGTTAGGACCATTACTGCCAGAGGAGAAAAGTATTAAGTAGCTCATTTCCCTACCTAAAAGAT 236 NM_022432 Sirt2 CATAGCCTCTAACCACCATAGCCTCTAACCACCCAGGCAAGAAGCAGCCTTCCCTAACTTCTAAT 237 NM_022433 Sirt3 CATATGGCTGACTTCGCTTTGGCAGATCTGCTACTCATTCTTGGGACCTCCCTGGAGGTGGAGCC 238 NM_001167691 Sirt4 TACTCTGGTTACAGGTTCATCCTCACCGCCCGCGAGCAAAAGCTCCCAATAGCCATTCTGAATAT 239 NM_022886 Scel ACGCCGACACGTGGAAATGAAGATGAGCACCTTCATCGAGGAATTTAAAGCTACATTTAAGAATA 240 NM_001038612 O l f GAAGAAGCAGTCCCCCATGTAACCATGAGAGAGCCAGAGAGCTTTTTGCACCATGCATTTTTACG m 1/Amy 241 NM_009354 Tert GTGATTCAGCTTCCCTTTGACCAGCGTGTTAGGAAGAACCTCACATTCTTTCTGGGCATCATCTC 242 NM_009741 Bcl2 ATTATTCAATCCGCTATAGACATCTGTGCACTGTGCATCTCTCCAGGCATGAAGAAAACCAGGTA 243 NM_010031 Defa1 GAACAAGACGAGCATGAGTACTGAGGCCACTGATGCTGGTGCCTGATGACCACTTCTCAATAAAT 244 NM_007843 Defb1 CTCTTCCACAGTCTTAGCAGTCAGTTCTATGACACCCCATCTGCAACCTTAGCAATAGAAACTCC 245 NM_001033228 Itga1 TGAATGTACGGTATCATCGTGTGTGAACTACTGCTGTAAAATGTGCTGATCCTCCTGCCCCAAAC 246 NM_008396 Itga2 CCCCTCATGATAATGAAACCCACGGAGAAAGCAGAAGTACCGACAGGGGTTATCATAGGCAGCAT 247 NM_008317 Hyal1 CAAGCACTAGAAGTGGGCTAACTCATTCAGTCTTTGCAATGGACATGCAGGGAAGCTGAGCCTTT 248 NM_010489 Hyal2 ACCTGCCAATACCTCAAGAATTACCTAACTCAGCTGCTGGTTCCCTACATAGTCAACGTGTCCTG 249 NM_146101 Habp2 TGAGGCCTTTTCTCTCTGGGAACCAACAAGAAATACATTATCTTTGCCCCCGTTCTGACAAGTGT 250 NM_019986 Habp4 ATTTCAGGACACGTGGAGAACCGCTCATGTAGAGCAGTCCCACCCCTAATTTTCATACCATTCAC 251 NM_013500 Hapln1 CCTTTTTGAGAAGTATGTCATTGCTCAAGACTGCCAGCACAGTGTACAGCAAAAGCTATGAATAA 252 NM_013565 Itga3 ATATATCATGGAGGGTGCCGTATCCAAGTCTCTGTCTGTGCCAAAACCAAGCCAAAGCGCCTCTA 253 NM_010576 Itga4 TTAAGGTGGAATCAAGTTTACAGACAATCACCTGAATGCTGACTCATTCCTTGTTCACAACCACT 254 NM_001029872 Itgad CTCCCCAGAGCTCACTGTGACAGTAACAGTTTGGAATGAGGGTGAGGACAGCTATGGAACCTTAA 255 NM_008400 Itgal TCTGCTAGCCTGCCTTGTCCCTCTGAGAGAATCTTTGAAATAAACTCGGAGAAACTGCCATCTCA 256 NM_001082960 Itgam CTTCCTAGCTGTTGGGGGTCTCTCCTTAGGGATATTAAAGGGTATATGTTTAGAATCTATTCCAC 257 NM_008404 Itgb2 CTGCCAAGGATCCAAAAGCCTGCTCGGTTTCTTTCCGCCATTATATCAAGTCTGCCAGGGTTTCC 258 NM_001101 ACTB AGTCCTCTCCCAAGTCCACACAGGGGAGGTGATAGCATTGCTTTCGTGTAAATTATGTAATGCAA 259 NM_001688 ATP5F1 GAGACAATTGCCAAGTGCATTGCGGACCTAAAGCTGCTGGCAAAGAAGGCTCAAGCACAGCCAGT 260 NM_002046 GAPDH AGTTGCCATGTAGACCCCTTGAAGAGGGGAGGGGCCTAGGGAGCCGCACCTTGTCATGTACCATC 261 NM_001514 GTF2B GAGCCTTTCATGAGGAAAAACAAAAGACATGGTACGCATTCCAGGGCTGAATACTATTGCTTGGC 262 NM_000929 PLA2G5 CAACACAGAGTACTGACTCTGCCTGGTTCCTGAGAGAGGCTCCTAAGTCACAGACCTCAGTCTTT 263 NM_001009 RPS5 AACAACGGCAAGAAGCTCATGACTGTGCGCATCGTCAAGCATGCCTTCGAGATCATACACCTGCT 264 NM_006082 TUBA1B TGCAGCATGTCATGCTCCCAGAATTTCAGCTTCAGCTTAACTGACAGACGTTAAAGCTTTCTGGT 265 NM_000181 GUSB TGGAAAACAGCCCGTTTACTTGAGCAAGACTGATACCACCTGCGTGTCCCTTCCTCCCCGAGTCA 266 NM_053275 RPLP0 GTCGGACGAGGATATGGGATTTGGTCTCTTTGACTAATCACCAAAAAGCAACCAACTTAG 267 NM_007393 Actb CCATCGTGCACCGCAAGTGCTTCTAGGCGGACTGTTACTGAGCTGCGTTTTACACCCTTTCTTTG 268 NM_008084 GAPDH GGGCTGCCATTTGCAGTGGCAAAGTGGAGATTGTTGCCATCAACGACCCCTTCATTGACCTCAAC 269 NM_010368 GUSB GGTCCTCCATTTCCCAGGTGATCCAAATGCCCTTTTGGCCCCTGCGGGTACCACATGTATGTGGT 270 NM_008828 PGK1 TTCTGCCTGAGAAAGGAAGTGAGCTGTAAAGGCTGAGCTCTCTCTCTGACGTATGTAGCCTCTGG 271 NM_007475 Arbp ATCAGATGAGGATATGGGATTCGGTCTCTTCGACTAATCCCGCCAAAGCAACCAAGTCAGCCTGC 272 YPL088W-713 YPL088W- GCATGTTGACTCGTCCTCTGAACCAAAGCACGGACAGGATTAAGAGTGATCCAACTTTCAAGTCG 713 273 OmpA OmpA GTGTCGGCATAAGCCGAAGATATCGGTAGAGTTATATTGAGCAGATCCCCCGGTGAAGGATTTAA

In the invention, the nucleic acids comprising the base sequence as a control can be also used together with the nucleic acids of (α) described above, and similarly, can be also used together with the nucleic acids of (β), (γ) and (δ) described below.

In addition, the nucleic acids of (β) described above can be also used in evaluation of the influence of ultraviolet ray on the skin and the like in the invention similarly to the nucleic acids of (α) described above. With respect to the nucleic acids of (β) described above, the explanation for the nucleic acids of (α) described above can be similarly applied except that the nucleic acids of (β) comprises the base sequence of the complementary strand of the nucleic acids of (α) described above.

In addition, the nucleic acids of (γ) described above can be also used in evaluation of the influence of ultraviolet ray on the skin and the like in the invention, similarly to the nucleic acids of (α) and (β) described above.

The nucleic acids of (γ) described above are nucleic acids comprising a base sequence having a homology of 70% or higher with respect to the base sequence of the nucleic acids of aforesaid (α) or (β), and further are preferably nucleic acids comprising a base sequence having a homology of 71% or higher, 72% or higher, 73% or higher, 74% or higher, 75% or higher, 76% or higher, 77% or higher, 78% or higher, 79% or higher, 80% or higher, 81% or higher, 82% or higher, 83% or higher, 84% or higher, 85% or higher, 86% or higher, 87% or higher, 88% or higher, 89% or higher, 90% or higher, 91% or higher, 92% or higher, 93% or higher, 94% or higher, 95% or higher, 96% or higher, 97% or higher, 98% or higher, 99% or higher, 99.1% or higher, 99.2% or higher, 99.3% or higher, 99.4% or higher, 99.5% or higher, 99.6% or higher, 99.7% or higher, 99.8% or higher or 99.9% or higher. Furthermore, with respect to the explanation for the homology of the base sequence, the explanation for the nucleic acids of (b) described above can be similarly applied.

Furthermore, the expression “can detect the skin constitution-related gene” in the nucleic acids of (γ) described above means “can capture any one of the base sequences of the skin constitution-related genes listed in (a) described above (GBA, GLB1, CAT, OLFM1, ASAH1, MMP14, MMP17 and COL18A1) and the base sequence of the complementary strand by hybridization.

Further, the nucleic acids of (δ) described above can be also used in the evaluation of the influence of ultraviolet ray on the skin and the like, similarly to the nucleic acids of (α), (β) and (γ) described above.

The nucleic acids of (δ) described above are base sequences of which one to several (for example, 1 to 15, 1 to 10, or 1 to 5, or 1 to 2) bases are added, deleted or substituted in the base sequence of the nucleic acids of (α), (β) and (γ) described above. Examples of the nucleic acids of (δ) include those in which the end of the base sequence of the nucleic acids of (α), (β) and (γ) described above is modified with linker bases (polyT and the like), those in which separate bases are inserted into a portion of the base sequence, those in which a portion of the bases of the base sequence are deleted, those in which a portion of the bases of the base sequence are substituted with separate bases, and the like.

As described above, the mutated sequences by addition, deletion or substitution of desired bases, particularly substitution-type mutated nucleic acids, can be manufactured in accordance with, for example, the site-directed mutation induction method described in “Molecular cloning, A Laboratory Manual 3rd ed.”, “Current Protocols in Molecular Biology, John Wiley & Sons (1987-1997)” and the like described above. Specifically, the substitution-type mutated nucleic acids can be manufactured using a kit for introducing mutation utilizing the site-directed mutation induction method by a known method such as the Kunkel method or the Gapped duplex method. Examples of the kit preferably include QuickChange™ Site-Directed Mutagenesis Kit (manufactured by Stratagene Corporation), GeneTailor™ Site-Directed Mutagenesis System (manufactured by Invitrogen), TaKaRa Site-Directed Mutagenesis System (Prime STAR (registered trade-mark) Mutagenesis Basal kit, Mutan (registered trade-mark)-Super Express Km and the like: manufactured by TAKARA BID INC.) and the like.

Furthermore, with respect to the expression “can detect the skin constitution-related gene” in the nucleic acids of (δ) described above, the explanation for the nucleic acids of (γ) described above can be similarly applied.

The nucleic acids of (α), (β), (γ) and (δ) described above are not limited to the full lengths of the nucleic acids, and a portion thereof can be used as a probe, similarly to the nucleic acids of (a), (b) and (c) described above.

In addition, as the probe set for evaluating the influence of ultraviolet ray on the skin in the invention, for example, those composed of the nucleic acids of (i) and/or (ii) described below can be also used.

(i) Nucleic acids comprising the base sequences shown in SEQ ID NOS: 1 to 130

(ii) Nucleic acids comprising the base sequences shown in SEQ ID NOS: 131 to 257

Herein, the nucleic acids of (i) described above correspond to a portion of the nucleic acids comprising the base sequences of the human-derived skin constitution-related genes, and the nucleic acids of (ii) described above correspond to a portion of the nucleic acids comprising the base sequences of the mouse-derived skin constitution-related genes.

A method for obtaining the various nucleic acids described in the specification is not particularly limited, and the various nucleic acids can be acquired by a known genetic engineering method or a known synthesis method. For example, the various nucleic acids can be obtained by using a commercially available DNA synthesizer, and the like.

In addition, the various nucleic acids that can be used as a probe may be suitably modified, and examples thereof include those in which the end is vinylated (acryloylated, methacryloylated) or those in which the end is aminated, those modified with a linker bases (polyT and the like), and the like. In addition, as the various nucleic acids, used may be those obtained by inserting separate bases into a portion of the base sequence of the various nucleic acids, or those obtained by deleting a portion of the bases of the base sequence, or those obtained by substituting a portion of the bases of the base sequence with separate bases, or with substances other than the bases. Herein, examples of the substances other than the bases include dyes (fluorescent dyes, intercalators), quenching groups and base-crosslinking agents.

3. Nucleic Acid Microarray

A nucleic acid microarray is an array in which many nucleic acid probes are immobilized respectively, independently in a high density on support. A nucleic acid microarray is a system utilized for analyzing the expression amount associated with multiple nucleic acid base sequences or the sequence of a specific nucleic acid base sequence itself.

The nucleic acid microarray of the invention is loaded with the probes of the invention described above. The nucleic acid microarray of the invention is not limited if the probes of the invention are fixed on a support. For example, the probes that can hybridize with each mRNA derived from the skin constitution-related genes described above are fixed, respectively on a support, whereby to perform detection and quantification of the expressions of multiple skin constitution-related genes at the same time.

In the nucleic acid microarray, the form of the support is not particularly limited, and any form such as a plate, a rod and a bead may be used. In the case where a plate is used as the support, prescribed probes can be fixed every kind on the plate with a prescribed interval (see the spotting method and the like; Science 270, 467-470 (1995) and the like). In addition, prescribed probes can be sequentially synthesized every kind at certain positions on the plate (see the photolithography method and the like; Science 251, 767-773 (1991) and the like).

Examples of the other preferable forms of the support include those using hollow fibers. In the case where hollow fibers are used as the support, preferably exemplified may be a nucleic acid microarray obtained by fixing the probes every kind onto each hollow fiber, and bundling and fixing all of the hollow fibers, and then repeating cutting in the longitudinal direction of the fiber. This nucleic acid microarray can be explained as a type in which the probes are fixed on a through-hole substrate, which is also referred to as so-called “through-hole type microarray” (see Japanese Patent No. 3510882 and the like, or FIG. 1 of the present application).

A method for fixing the probes on the support is not particularly limited, and the probes may be fixed on the support in any binding mode. In addition, the method is not limited to direct fixing on the support, but, for example, the support may be previously coating-treated with a polymer such as polylysine, and the probe may be fixed on the support after the treatment. Further, in the case where a tubular body such as a hollow fiber is used as the support, a gelatinous substance may be kept on the tubular body, and the probes may be fixed on the gelatinous substance.

Hereinafter, the through-hole type nucleic acid microarray by the hollow fibers is explained in detail. This microarray can be manufactured, for example, through the processes (i) to (iv) described below.

(i) A process of disposing multiple hollow fibers three-dimensionally so that the longitudinal directions of the hollow fibers are in the same direction whereby to manufacture an array

(ii) A process of embedding aforesaid array whereby to manufacture a block body

(iii) A process of introducing a polymerizable solution of a gel precursor containing the probes into the hollow part in each hollow fiber of aforesaid block body whereby to perform the polymerization reaction and keep the gelatinous substance containing the probes in the hollow part

(iv) A process of cutting the hollow fibers in the direction intersecting the longitudinal direction of the hollow fibers whereby to flake the block body

The material used for the hollow fiber is not limited, but examples thereof preferably include the materials described in JP-A No. 2004-163211 and the like.

The hollow fibers are disposed three-dimensionally so that the lengths of the longitudinal direction are the same (the process (i)). Examples of the method for disposing the hollow fibers include a method in which multiple hollow fibers are arranged in parallel on a sheet-like material such as an adhesive sheet with a prescribed interval to give a sheet form, and then this sheet is helically rolled (see JP-A No. 11-108928), a method in which two perforated plates where multiple holes are installed at a prescribed interval, are superposed so that the hole parts coincide, and the hollow fibers are passed through the hole parts, and then the interval of the two perforated plates is opened to fix the hollow fibers temporarily, and a hardening resin material is charged around the hollow fibers between the two perforated plates and hardened (see JP-A No. 2001-133453) and the like.

The manufactured array is embedded such that the sequence is not disrupted (the process (ii)). Examples of the embedding method preferably include a method in which a polyurethane resin, an epoxy resin and the like is poured into the gap between the fibers, a method in which the fibers are bonded to each other by heat fusion, and the like.

The embedded array is filled with a polymerizable solution of a gel precursor (gel forming solution) comprising the probes in the hollow part in each hollow fiber, and the polymerization reaction is performed in the hollow part (the process (iii)). By this, it is possible to keep a gelatinous substance in which the probes are fixed in the hollow part in each hollow fiber.

The gel precursor-polymerizable solution refers to a solution containing a reactive substance such as a gel forming-polymerizable monomer, and being able to become a gelatinous substance by polymerizing and crosslinking the monomer and the like. Examples of such monomer include acrylic amide, dimethylacrylic amide, vinyl pyrrolidone, methylene bisacrylic amide and the like. In this case, the solution may contain a polymerization initiator and the like. The probes are fixed in the hollow fibers, and then the block body is cut and flaked in the direction intersecting the longitudinal direction of the hollow fiber (preferably orthogonal direction) (the process (iv)). Thus-obtained flake can be used as the nucleic acid microarray. The thickness of the array is preferably 0.01 mm to 1 mm or so. The cutting of the block body can be performed with, for example, a microtome, a laser or the like. Examples of the through-hole type microarray preferably include the nucleic acid microarray manufactured by Mitsubishi Rayon Co., Ltd. (Genopal™) and the like.

4. Evaluation of the Skin Condition

According to the invention, the expression amount of the skin constitution-related gene is measured using the probe or the probe set or the nucleic acid microarray of the invention described above, whereby to comprehensively evaluate the influence of external stimulation on the skin of a target object (a test subject), particularly the influence of ultraviolet ray on the skin condition such as skin elasticity and wrinkle.

The measurement of the expression amount of the skin constitution-related gene can be performed by, for example, applying external stimulation to the skin or skin culture cells of an animal as a target object (particularly, irradiating the skin or skin culture cells of an animal with ultraviolet ray), and then extracting mRNA from the skin or the culture cells. As the mRNA, the mRNA contained in the target object can be used as it is, or cDNA obtained by reverse transcription (or reverse transcription and amplification) from the mRNA, or aRNA (amplified RNA) obtained by transcriptional amplification of the cDNA can be used. Further, the amplification product is preferably labelled with a fluorescent labelling agent including biotin, an intercalator, metal particles, a luminous enzyme or the like.

The animal from which the skin or the culture cells are derived is not limited, and examples thereof include a human, a mouse, a rat, a hamster, a pig, a guinea pig, a monkey, a dog, a cat and the like. The kind of the culture cell is not particularly limited if it is a cell associated with the skin, and examples thereof may include a normal epithelium cell, a normal melanocyte, a normal keratinocyte cell, an epithelium fibroblast, a melanoma cell and the like.

The hybridization reaction can be performed by suitably setting up the reaction conditions (the kind of a buffer solution, the pH, the temperature and the like) where mRNA, cDNA or aRNA obtained as described above can hybridize with the probes loaded into the microarray under the stringent conditions. Furthermore, the “stringent conditions” herein is as described above.

After the washing, the detection intensity is measured for each probe by an apparatus that can detect the labelling of mRNA, cDNA or aRNA bound to the probes. Based on the detection results (signal intensity) obtained from the labelling agent and the like, it is possible to evaluate the significance of the expression amount of the various target genes by a known treatment method.

5. Screening Method

In the invention, it is possible to provide a method of screening a compound that is useful in a skin disease remedy or a cosmetic using the probe or the probe set or the nucleic acid microarray of the invention.

The screening can be specifically performed by, for example, applying external stimulation of UVB on the skin or the skin culture cells of an animal, and then bringing a candidate substance into contact with the animal or the culture cells, measuring the expression amount of the skin constitution-related gene, and comparing and analyzing the expression amount with that of the gene of a control group (the case of not being brought into contact with the candidate substance, and the like). In addition, in some cases, the skin or the skin culture cells may be brought into contact with the candidate substance before the external stimulation. The contact herein refers to administration of the candidate substance percutaneously (application or paste onto the skin, and the like), orally, intraperitoneally, subcutaneously, intravenously and the like in the case of an animal, or refers to addition of the candidate substance into the culture solution in the case of the culture cells.

Examples of the control group include the case where the external stimulation is applied without contact of the candidate substance, the case where the external stimulation is not applied with contact of the candidate substance, the case where the external stimulation is not applied without contact of the candidate substance, and the like.

Furthermore, examples of the candidate substance that can be used include arbitrary, various compounds, and may be those derived from the nature or those artificially manufactured, and is not limited.

The data for the expression amount of the control gene may be acquired from the same test subject, or may be acquired from multiple different test subjects of the same kind, or may be those previously accumulated in the database. In addition, the measured expression amount data derived from the test subject may be incorporated into the value of the population (the test subject) whereby to data-treat again the level of the expression amount (averaging and the like), and increase the number of the cases of the population. By increasing the number of the cases, it is possible to increase the accuracy of the critical value of the expression amount. In some cases, by suitably modifying the critical value, it is possible to increase the accuracy of the screening.

As the comparison and analysis of the gene-expression amount, the gene-expression amount in the case of contact with the candidate substance can be evaluated in the point whether or not the gene-expression amount is close to the gene-expression amount in the case where the external stimulation is not applied. As the evaluation method for the gene-expression amount, the gene-expression amount can be evaluated by patterning the temporal change of the gene-expression amount or the change depending on the conditions, and specifically the evaluation can be performed using multivariate analysis. Examples of the multivariate analysis include comparison of the pattern and prediction of the effects using main ingredient analysis, factor analysis, distinction analysis, quantification theory (Class I, Class II, Class III, and Class IV), cluster analysis, multidimensional scaling (MDS), multiple regression analysis, conjoint analysis, Mahalanobis and Taguchi system (MT method), and the like.

The concentration and the amount of the candidate substance that is brought into contact with the animal or the culture cells can be suitably set up and selected depending on the kind of the candidate substance or the test subject, and the like. The contact is preferably performed in the concentration and the amount at which no toxicity from the candidate substance is caused to the test subject so that there is no influence that is an obstacle in extracting the nucleic acid. The expression “no toxicity from the candidate substance is caused” refers to, for example, at least no death, or no partial necrosis observed in the case of the animal, or at least 90% or higher of the cell survival rate in the case of the culture cells.

A method for extracting the nucleic acids or a method for treating the extracted nucleic acids is not limited, and may be performed with a known method, and is preferably performed with a method suitable for the kind of the microarray to be used. For example, in the case where Total RNA is isolated, RNeasy mini kit (QIAGEN), which is a reagent kit of commercial products, or the like may be used, and the extraction may be performed in accordance with the accessory protocol. In addition, in the case where RNA is amplified depending on the circumstances, Message AmpII-Biotin Enhanced kit (manufactured by Applied Biosystems), which is a kit of commercial products, may be used, and aRNA amplified in accordance with the accessory protocol may be manufactured and measured.

Among the data as the measurement results, only those having a value equal to or higher than the determination value are used in the evaluation. The determination value used may be the average value X of the negative control genes, and further is a value obtained by adding the standard deviation σ to X, further desirably X+2σ, and further desirably X+3σ. Furthermore, the negative control is a gene not detected from a test subject, and is, for example, a gene of a different kind of organism from that of the test subject, and the like.

The error between respective samples of the obtained data is corrected with the value of the housekeeping gene (gapdh, actin, arbp and the like), and using the corrected data, the change of the mRNA amount is determined (the change of the mRNA amount is statistically determined by the test. 3 or higher sample number (n) is acquired from each of the test subjects, and the t-test is performed. In the case where P value is 0.05 or less, and further is 0.01 or less, it is determined that the mRNA amount has significantly changed.). The candidate substance that is used in the case where the mRNA amount has not been determined to have been significantly changed as a result of the determination, can be judged as a candidate substance of which the gene-expression amount can be close to the gene-expression amount in the case where the external stimulation is not given as described above, and can be judged to be screened as a compound that is useful in a skin disease remedy or a cosmetic.

EXAMPLES

Hereinafter, the invention is further specifically explained by Examples. However, the invention is not limited to these Examples.

Example 1 (1) Manufacture of Hollow Fiber Bundle

A hollow fiber bundle was manufactured utilizing the sequence fixing apparatus shown in FIG. 1. Furthermore, x, y and z in the figure are orthogonal, 3-dimensional axes, and the x axis coincides with the longitudinal direction of the fiber.

First, two pieces of perforated plates having a 0.1 mm thickness on which holes having a 0.32 mm diameter are installed in total 256 in 16 rows of the horizontal and vertical lines, respectively at 0.12 mm of the distance between the holes, were prepared. These perforated plates were superposed, and through all of the holes, polycarbonate hollow fibers having 280 μm of the outer diameter, 180 μm of the internal diameter and 150 mm of the length were passed one by one.

The positions of the two pieces of the perforated plates were moved such that the perforated plates were fixed at two positions of 20 mm and 100 mm from one end of the hollow fiber in a state that each fiber was applied with 0.1 N of the tension in the direction of the axis X. In other words, the interval between the two pieces of the perforated plate was 80 mm. Then, the three sides around the space between the perforated plates were surrounded with a plate-like material. In this way, a container of which the top only was in the open state, was obtained.

Next, a resin material was poured into the container from the top of this container. As the resin, a resin obtained by adding 2.5 mass % of carbon black to the total mass of a polyurethane resin adhesive (NIPPOLAN 4276 and CORONATE 4403 manufactured by NIPPON POLYURETHANE INDUSTRY Co., Ltd.) was used. The resin was left at 25° C. for 1 week to harden the resin. Then, the perforated plates and the plate-like material were removed, and a hollow fiber bundle was obtained. The obtained hollow fiber bundle was put into a desiccator and the inside was purged with nitrogen, and then left for 16 hours.

(2) Immobilization of Probe into Hollow Thread and Slice

A gel polymerization precursor solution (Table 5: the unit is mL) of the composition comprising the probes of the genes selected from the sequence listing (vinylated nucleic acid was purchased from BEX CO., LTD.) was dispensed to each well of a microwell plate by 36 μL. The well plate was established in a desiccator, and the gel precursor solution dispensed to each well was sucked from the end, and introduced into the hollow part of the hollow fiber.

TABLE 5 Mass ratio (Probe: Composition Concentration) N,N′-dimethylacrylic amide 3.42 N,N′-methylenebisacrylic amide 0.38 2,2′-azobis(2-methylpropionamidine) dihydrochloride 0.01 Aqueous solution of Probe (pmol/μL) 5 Pure water 98.19

Then, the hollow fiber bundle was established in the desiccator, and the inside of the desiccator was heated to 55° C. under a nitrogen atmosphere, and the polymerization reaction was performed at 55° C. for 3 hours.

After completion of the polymerization reaction, the hollow fiber bundle was flaked in 250 μm of the thickness in the direction perpendicular to the longitudinal direction of the hollow fiber using a microtome. In this way, 300 pieces of the nucleic acid microarrays having 250 μm of the thickness loaded with gel spots comprising 228 capture probes were manufactured.

(3) Measurement of Sample Using Manufactured Nucleic Acid Microarray

Fibrocytes (RIKEN BRC CELL BANK) were inoculated on a 96 well plate in 2.0×10⁴ cells/well, and cultured for 24 hours on a DMEM medium containing 10% FBS (Sigma-Aldrich Co. LLC.). The time before UVB (ultraviolet ray B wave) irradiation was taken as time zero, and the medium was removed from some of the wells and the wells were added with PBS and irradiated with UVB (30 mJ/cm2). After UVB irradiation, PBS was removed, and the medium was added and cultured again for 3, 6, 9, 12, 24, 36, 48 and 72 hours.

The cell at each culture time was washed with PBS(−), and gene expression analysis by the nucleic acid microarray was performed. Manufacture of a sample for the gene expression analysis by the nucleic acid microarray was performed according to the protocol of Rneasy Mini Kit (manufactured by Qiagen).

The cells were washed with PBS(−), and then collected with trypsin treatment, and precipitated at 1000 rpm, and the supernatant was removed, and then 175 μL of PBS(−) was added. To 175 μL of the cell sample solution, 175 μL of RLT solution accompanied in the kit was added, and 1 mL syringe was inserted 5 times, to crush the cells. To the crushed solution, 70% ethanol was added, and pipetting was performed 5 times. Then, the solution was added to the accompanied column, and centrifuged (1 minute at 13000 rpm), and then washed with the accompanied 1700 μL RW and 500 μL RPE (1 minute at 13000 rpm, respectively), and eluted with 30 μL RNase free Water whereby to perform the RNA purification.

Next, manufacture of aRNA was performed from 1 mg Total RNA in accordance to the accompanied protocol using Message Amp II-Biotin Enhanced kit (manufactured by Applied Biosystems). 5 μg aRNA was put into a plastic tube, and 4 μL of 5× Array Fragmentation Buffer accompanied in Message AmpII-Biotin Enhanced kit (manufactured by Applied Biosystems) was added to the plastic tube. The plastic tube was diluted to 20 μL and well mixed, and then heated at 94° C. for 7.5 minutes whereby to perform fragmentation of aRNA. To 20 μL of the solution after the fragmentation, 18 μL of 1 M Tris-HCl solution (manufactured by Invitrogen), 18 μL of 1 M NaCl solution (manufactured by nacalai tesque) and 15 μL of 0.5% Tween 20 solution were mixed, respectively, and the mixture was diluted to 150 μL with Nuclease-free water, whereby to manufacture a specimen solution.

Into the manufactured specimen solution, a nucleic acid microarray (nucleic acid microarray manufactured by Mitsubishi Rayon Co., Ltd. (Genopal™)) was dipped, and the hybridization reaction was performed for 16 hours at 65° C. The specimen solution used in the hybridization was removed from the array, and then the array was dipped into 0.12 M TNT solution (solution of 0.12 M Tris-HCl, 0.12M NaCl, 0.5% and Tween 20) at 65° C. (for 20 minutes×twice), and then dipped into 0.12 M TN solution (0.12 M Tris-HCl, 0.12 M NaCl) warmed to 65° C. for 10 minutes to be washed. Then, the signals of the nucleic acid microarray were detected.

Detection of the signal in the nucleic acid microarray was performed by measuring the Cy5 fluorescent intensity using an apparatus for detection of a nucleic acid microarray (MB-M3A manufactured by Yokogawa Electric Corporation, laser wavelength:633 nm) (exposure time:0.1 sec, 1 sec, 4 sec, 40 sec). Furthermore, the results were subtracted with the background, and then corrected using the values of Actin, Arbp and Gapdh, and the results showed temporal changes of the signal values.

The results are shown in FIG. 2 (FIG. 2A to 2H). From the results of FIG. 2, examples of the genes that have significantly changed in the expression difference due to the difference of the UVB irradiation conditions since 38th hour in comparison to the negative control include GBA, GLB1, CAT, OLFM1, ASAH1, MMP14, MMP17 and COL18A1 (see each of the graphs of FIG. 2F: No. 85, FIG. 2E: No. 70, FIG. 2D: No. 63, FIG. 2G: No. 112, FIG. 2E: No. 84, FIG. 2B: No. 27, FIG. 2B: No. 30, and FIG. 2D: No. 58, respectively in order). These genes are suggested to reflect the influence of UVB irradiation, and using these genes, the influence on the skin can be evaluated.

From these results, conditions having the influence on the skin constitution such as skin elasticity, wrinkle and texture can be evaluated quantitatively.

INDUSTRIAL APPLICABILITY

According to the invention, it is possible to provide a probe or a probe set which can objectively evaluate the influence of external stimulation, particularly ultraviolet ray on the skin at the gene expression level, and a nucleic acid microarray which is loaded with the probe or the probe set. The probe or a probe set, and the nucleic acid microarray are highly useful in the point that they can be used in a method of evaluating the influence of ultraviolet ray on the skin of a test subject, and a method of effectively screening a substance (compound and the like) that is useful as an active ingredient of a skin disease remedy (percutaneous absorption-type formulation and the like) or a cosmetic.

EXPLANATIONS OF LETTERS OR NUMERALS

-   -   1 Sequence fixing apparatus     -   11 Hole part     -   21 Perforated plate     -   31 Hollow fiber     -   41 Plate-like material 

1. (canceled)
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 10. A method of evaluating the influence of ultraviolet ray on the skin, comprising irradiating a target object with ultraviolet ray, and then measuring gene-expression amount using a probe or a probe set comprising a nucleic acid of (a), b) or (c): (a) a nucleic acid comprising a base sequence of at least one gene selected from the group consisting of GBA, GLB1, CAT, OLFM1, ASAH1, MMP14, MMP17 and COL18A1; (b) a nucleic acid comprising a base sequence complementary to the nucleic acid of (a); and (c) a nucleic acid which hybridizes with a nucleic acid comprising a base sequence complementary to the nucleic acid of (a) or (b) under stringent conditions, and can detect a skin-constitution-related gene.
 11. A method of evaluating the influence of ultraviolet ray on the skin, comprising irradiating a target object with ultraviolet ray, and then measuring gene-expression amount using a nucleic acid microarray comprising the probe or the probe set according to claim
 10. 12. A method of screening a compound that is useful in a skin disease remedy or a cosmetic, comprising applying external stimulation of UVB on the skin or the skin culture cells of an animal, and then bringing a probe or a probe set into contact with the animal or the culture cells, measuring the expression amount of the skin constitution-related gene, and comparing and analyzing the expression amount with that of the gene of a control group, the probe or the probe set comprising a nucleic acid of (a), b) or (c): (a) a nucleic acid comprising a base sequence of at least one gene selected from the group consisting of GBA, GLB1, CAT, OLFM1, ASAH1, MMP14, MMP17 and COL18A1; (b) a nucleic acid comprising a base sequence complementary to the nucleic acid of (a); and (c) a nucleic acid which hybridizes with a nucleic acid comprising a base sequence complementary to the nucleic acid of (a) or (b) under stringent conditions, and can detect a skin-constitution-related gene.
 13. A method of screening a compound that is useful in a skin disease remedy or a cosmetic, comprising applying external stimulation of UVB on the skin or the skin culture cells of an animal, and then bringing a nucleic acid microarray comprising the probe or the probe set according to claim 12 into contact with the animal or the culture cells, measuring the expression amount of the skin constitution-related gene, and comparing and analyzing the expression amount with that of the gene of a control group.
 14. The method of claim 10, wherein the nucleic acid of (a) is composed of a nucleic acid of (i) and a nucleic acid of (ii): (i) a nucleic acid comprising a base sequence of at least one gene selected from the group consisting of GBA, GLB1, CAT, OLFM1 and ASAH1; and (ii) a nucleic acid comprising a base sequence of at least one gene selected from the group consisting of MMP14, MMP17 and COL18A1.
 15. The method of claim 10, wherein the nucleic acid of (a) is a nucleic acid comprising a base sequence of GBA, GLB1, CAT, OLFM1 and ASAH1.
 16. The method of claim 10, wherein the nucleic acid of (a) is a nucleic acid comprising a base sequence of MMP14, MMP17 and COL18A1.
 17. The method of claim 10, wherein the nucleic acid of (a) is a nucleic acid comprising a base sequence of MMP14, MMP17, COL18A1, GBA, GLB1, CAT, OLFM1 and ASAH1.
 18. A method of evaluating the influence of ultraviolet ray on the skin, comprising irradiating a target object with ultraviolet ray, and then measuring gene-expression amount using a probe or a probe set comprising a nucleic acid of (α), (β), (γ) or (δ): (α) a nucleic acid comprising at least one base sequence selected from the group consisting of SEQ ID NOS: 27, 30, 58, 63, 70, 84, 85 and 112; (β) a nucleic acid comprising a base sequence complementary to the nucleic acid of (α); (γ) a nucleic acid comprising a base sequence having a homology of 70% or higher with respect to the base sequence of the nucleic acid of (α) or (β), and can detect a skin constitution-related gene; and (δ) a nucleic acid comprising a base sequence wherein one or more bases are added, deleted or substituted in the base sequence of the nucleic acid of (α), (β) or (γ), and can detect a skin constitution-related gene.
 19. The method of claim 18, wherein the nucleic acid of (α) is a nucleic acid comprising all of SEQ ID NOS: 27, 30, 58, 63, 70, 84, 85 and
 112. 20. A method of evaluating the influence of ultraviolet ray on the skin, comprising irradiating a target object with ultraviolet ray, and then measuring gene-expression amount using a probe or a probe set comprising a nucleic acid of (iii) and/or (iv) described below: (iii) a nucleic acid comprising all base sequences of SEQ ID NOS: 1 to 130; (iv) a nucleic acid comprising all base sequences of SEQ ID NOS: 131 to
 257. 21. The method of claim 10, wherein the nucleic acid of (a) is composed of a nucleic acid of (v) and a nucleic acid of (vi): (v) a nucleic acid comprising a base sequence of at least two genes selected from the group consisting of GBA, GLB1, CAT, OLFM1 and ASAH1; and (vi) a nucleic acid comprising a base sequence of at least two genes selected from the group consisting of MMP14, MMP17 and COL18A1.
 22. The method of claim 10, wherein the nucleic acid of (a) is composed of a nucleic acid of (vii) and a nucleic acid of (viii): (vii) a nucleic acid comprising a base sequence of GBA and CAT; and (viii) a nucleic acid comprising a base sequence of MMP17 and COL18A1. 